How does modern science explain the evolution of abiotic to biotic matter?
How would the first life form have survived in the first day / week of its formation? What kind of system of organelles / biological functions would it have to form in the first day / week of it's formation in order to survive?
Would the mutations / adaptations have been rapid?
It would need the ability to absorb, distribute and utilize nutrition properly...
Any ideas?
I have one for ya. Evolution is false.
Why would you say that Anonymos person?
Because life never evolved from rocks. What a ridiculous absurd idea. Think about it. How the heck would that first evolution survive? It wouldn't. Evolution is not rapid. It is delayed over a long period of time. It would take a lot of energy for rocks to rapidly evolve into a stable life form before it dies. That's why evolution is absurd. Hate me, love me. I don't care.
Just because this sub-categorical idea that "life evolved from rocks" is highly unlikely, doesn't mean Evolution as a hole is absurd.
"Would the mutations / adaptations have been rapid?"
The mutations would need to have been almost instantaneous, no?
I mean, how would this work?
The modern scientific explanation of the evolution of abiotic (non-living) matter to biotic (living) matter is based on the theory of abiogenesis and the principles of chemistry and biology. While there is still some debate and ongoing research in the field, scientists have proposed several plausible mechanisms for the transition from non-living to living matter.
Abiogenesis suggests that the first life emerged from chemical reactions in the early Earth's environment, where certain molecules gradually formed more complex structures capable of self-replication and metabolism. The exact processes are still under investigation, but one hypothesis is that simple organic molecules, such as amino acids or nucleotides, formed under primordial conditions, possibly in the presence of energy sources like lightning, UV radiation, or volcanic activity.
To address your second question about the survival and function of the first life form, it is important to note that the earliest forms of life were likely very simple and different from modern organisms. These early life forms may have been self-replicating molecules or protocells, rudimentary structures with some properties of living organisms.
In the initial stages, the first life forms would have needed to accomplish certain essential functions to survive and continue the evolutionary process. These functions include:
1. Replication: The ability to make copies of themselves, ensuring their survival and propagation. This could have been achieved through mechanisms similar to the replication of nucleic acids or simpler replicative processes.
2. Metabolism: The ability to obtain and utilize energy and nutrients from the environment. The first life forms might have relied on simple metabolic reactions that involved the absorption or synthesis of basic molecules present in their surroundings.
3. Homeostasis: Maintaining a stable internal environment despite changing external conditions. While the early life forms were likely less complex compared to modern cells, some basic mechanisms might have allowed them to maintain a relatively stable internal environment to function optimally.
During the first day/week of its formation, the initial life form would have gradually developed these key functionalities. It's important to understand that this process would not have happened overnight, but rather over an extended period of time spanning millions of years. The early life forms would have been subject to natural selection, where those that had advantages in replication, metabolism, or homeostasis would have had a higher likelihood to survive and pass on their genetic material.
To summarize, modern science explains the evolution of abiotic to biotic matter through the theory of abiogenesis, which proposes that the first life forms emerged from chemical processes on Earth. The earliest life forms would have gradually acquired essential functions such as replication, metabolism, and homeostasis, allowing them to survive and evolve over time. The specifics of these processes are still being explored, and ongoing research continues to shed light on this fascinating topic.